Let $m,$ $n \geq 2$ be integers, and let $R$ be a subring of $\mathbb R$ with field of fractions $F.$ In this article, we generalize the rational angle bisection problem previously proposed by the author as follows: characterize the pairs of linearly independent vectors $\vec{ a},$ $\vec{ b} \in R^n$ that form angles with sequences of $m$-sector vectors lying in $R^n.$ When $\vec{ a}$ and $\vec{ b}$ are nonorthogonal, we prove that this condition is equivalent to the existence of a root in $F$ of a certain $m$-th degree polynomial over $R.$ In particular, when $R = \mathbb Z,$ the condition holds if and only if the polynomial has a root among the divisors of its constant term. When $m = 2^e$ with integer $e \geq 1,$ we also prove that the condition is equivalent to $\cos (\theta /2^{ e-1}) \in F,$ where $\theta$ is the angle between $\vec{ a}$ and $\vec{ b}.$
Categories: math.NT math.MG